# ESP Sizing & Configuration AI Agent Connect

> ESP Sizing & Configuration MCP handles the heavy lifting for electric submersible pump design. Your AI client uses this tool to run nodal analysis, determine pump stages, select motors and cables, and verify that your entire system fits the wellbore geometry and safety constraints.

## Overview
- **Category:** engineering
- **Price:** Free
- **Endpoint:** https://edge.vinkius.com/vk_preview_RgrEQjLidJrXddJNnX0hLjytZfidPkU9DbznW7J0/ai-agent-connect
- **Tags:** esp, nodal-analysis, pump-sizing, oil-field, submersible-pumps

## Description

You can stop manually iterating through pump curves and electrical specs. This MCP gives your AI client the engineering logic needed to design electric submersible pump (ESP) systems from the ground up. You start by using the tool to find the equilibrium between reservoir delivery and system requirements through nodal analysis. Once you have that operating point, the MCP calculates the exact pump hardware you need, factoring in things like gas handling and viscosity derating. It doesn't stop at the pump; it also picks the right motor, cable, and VFD based on your specific depth and load. Finally, it runs a feasibility check to make sure your proposed setup actually works within your wellbore's physical limits and safety rules. It turns a complex multi-step engineering process into a direct conversation with your agent.

## Tools

### get_operating_point
This tool finds the equilibrium where reservoir delivery matches your system lifting needs.

### calculate_pump_configuration
This tool determines the specific hardware and physical requirements for the pump unit.

### select_electrical_system
This tool picks the necessary motor, cable, and surface control components.

### validate_system_feasibility
This tool checks your final configuration against operational safety and wellbore geometry constraints.

## Prompt Examples

**Prompt:** 
```
Find the operating point for a well with an inflow performance of 'IPR_001' and a system head curve of 'SHC_99'.
```

**Response:** 
```
The equilibrium production rate is 1,250 barrels per day with a total dynamic head of 4,500 feet.
```

**Prompt:** 
```
Calculate the pump configuration for a target flow rate of 2000 bpd, 5000 ft head, 50 cP viscosity, and 5% gas.
```

**Response:** 
```
The required configuration is 142 stages of the High-Efficiency Model X, with an efficiency derating factor of 0.88.
```

**Prompt:** 
```
Select the electrical system for a 250 HP motor at 8,000 ft depth with a fluid density of 0.85 spgr.
```

**Response:** 
```
The recommended setup is a 450V motor with #4 AWG heavy-duty cable, and a VFD is required for startup torque management.
```

## Capabilities

### Nodal Analysis
Your agent uses this to find the intersection of reservoir delivery and system requirements.

### Hardware Sizing
The AI calculates specific pump stages and models based on fluid properties.

### Electrical Selection
Your client identifies the correct motor, cable, and VFD for the job.

### Feasibility Checking
The tool validates that the design meets wellbore geometry and safety limits.

### Fluid Correction
The MCP accounts for viscosity derating and gas handling during pump calculations.

## Use Cases

### Initial Pump Sizing
Generate a baseline pump configuration using reservoir inflow and system head curves.

### Electrical Component Selection
Determine the specific motor and cable requirements for a deep well installation.

### Design Validation
Check a completed pump design against safety and operational constraints before deployment.

### Fluid Property Adjustment
Recalculate pump efficiency when dealing with high viscosity or gas-heavy fluids.

## Benefits

- Automates the calculation of pump stages and models.
- Accounts for viscosity and gas handling in hardware selection.
- Matches electrical components to specific depth and load requirements.
- Verifies design safety against wellbore geometry.

## How It Works

Connect your AI client to Vinkius to start running engineering calculations immediately.

1. Connect your preferred client like Claude or Cursor to the Vinkius hosted MCP.
2. Provide reservoir and system data to your agent.
3. The agent uses the MCP tools to calculate the operating point and pump hardware.
4. The agent selects the electrical components and validates the final design.

## Frequently Asked Questions

**What kind of data do I need to provide for pump sizing?**
You typically need inflow performance data, system head curves, target flow rates, and fluid properties like viscosity and gas content.

**Does this MCP handle electrical components?**
Yes, it includes a tool to select the appropriate motor, cable, and VFD based on your depth and load.

**Can it account for non-ideal fluid conditions?**
Yes, the pump configuration tool specifically accounts for viscosity derating and gas handling.

**How does it ensure the design is safe?**
The validation tool checks the entire configuration against wellbore geometry and safety constraints.

**Which AI clients can use this MCP?**
You can use this with any MCP-compatible client, including Claude, Cursor, Windsurf, and VS Code.

**How does the tool handle high-viscosity fluids?**
The `calculate_pump_configuration` tool applies a viscosity derating factor to the pump performance curves to ensure the selected hardware can handle the increased resistance.

**Can I validate if my pump fits in the wellbore?**
Yes, use the `validate_system_feasibility` tool. It checks the pump diameter and electrical system against the provided wellbore geometry and constraints.

**What information is needed to find the operating point?**
You need to provide the inflow performance description and the system head curve description to the `get_operating_point` tool.